➀ The Karlsruhe Institute of Technology (KIT) has developed the open-source platform 'OpenEarable';
➁ This platform integrates a variety of sensors in wireless headphones for comprehensive health measurements and security applications;
➂ OpenEarable 2.0 allows developers to create customized software with over 30 physiological parameters measurable directly in the ear.
➀ Texas Instruments has released a wearable biosensing Holter reference design for continuous vital sign monitoring. It measures ECG, heart rate, respiration, pace pulse, temperature, and motion.
➁ The design includes an AFE159RP4 for low-power, high-resolution ECG acquisition and a TMP119 for body temperature monitoring. Data is transmitted via Bluetooth Low Energy 5.3.
➂ The reference design supports multiple battery options and offers up to six days of operation, making it suitable for medical sensor patches and wearable fitness devices.
➀ This reference design, TIDA-010288, from Texas Instruments is designed for real-time monitoring of vital signs like ECG, heart rate, respiration, etc., using edge AI.
➁ The design integrates high-performance components including AFE159RP4 for ECG signal acquisition and MSPM0 MCU for real-time arrhythmia classification.
➂ Data is transmitted via Bluetooth LE 5.3, enabling real-time visualization and analysis on remote devices such as smartphones or medical systems.
➀ Researchers from Nottingham Trent University, Helmholtz-Zentrum Dresden-Rossendorf, and Free University of Bozen-Bolzano have developed washable, durable electronic textiles that can sense magnetic fields.
➁ These textiles can be used in clothing and other fabrics, functioning reliably underwater and in various weather conditions.
➂ The technology allows users to interact with devices using a ring or glove containing a small magnet, reducing wear and tear compared to traditional tactile sensors.
➀ Researchers from Hanyang University, Yonsei University, and Sogang University in South Korea have developed a silicon-integrated hole transport layer using microlithography to enhance OLED performance without sacrificing energy efficiency.
➁ This innovation significantly improves charge balance, resulting in enhanced luminance and reduced crosstalk in OLED displays.
➂ The new structure achieved an ultra-high resolution of 10,062 pixels per inch (PPI) on a six-inch wafer, opening doors for high-definition OLED displays in VR, AR, smart glasses, wearables, and next-gen smartphones.
